Abstract: An autonomous, modular energy generation, storage and transmission apparatus, system, and method is provided. An apparatus is tube shaped and includes solar and thermionic energy conversion layers, and a battery module. A system of modular apparatuses may be connected together to form an transmission network. Such devices are particularly suited for outdoor application on highway jersey walls, and for indoor application on office cubicle walls. A method of charging battery modules in the apparatus is provided, along with a method of distributing the same in commerce.

Abstract: A floating power station which can be stationary or movable with a solar power ship assembly which consists an power boat, a tow cable, a tow cable keeper, and many floating solar power stations which are towed or self-propelling and which consist many optional floating cable boxes and floating solar power collection units and which have solar panel arrays and flexible container to equalize air pressures; the power boat being an electrical powered boat which has a propelling system which can propel the solar power ship assembly; the tow cable keeper being a towed float which can keep one end of the tow cable above water; the tow cable being a link system which connects the tow cable keeper with the power boat; electricity collected by the floating solar power station being able to be sent to the power boat by the power conveying mean of the floating solar power station.

Abstract: A surface-plasmon-coupled thermoelectric apparatus includes a first surface-plasmon substrate and a thermoelectric substrate electrically coupled to a plurality of electrodes. The substrates are electrically isolated from each other, and a first face of the thermoelectric substrate opposes a first face of the first surface-plasmon substrate to define a phonon insulating gap. A method of transferring thermal energy across the phonon insulating gap includes creating a first surface-plasmon polariton at the first surface-plasmon substrate when the first surface-plasmon substrate is coupled to a first thermal reservoir. Also included is creating a nonequilibrium state between the electron temperature and the phonon temperature at a first face of the thermoelectric substrate, when a second face of the thermoelectric substrate is coupled to a second thermal reservoir.

Abstract: A sensor whose size can be decreased without marring the performance and which can be installed in a narrow place, an electric device, and a method for easily manufacturing the electric device. By vacuum deposition of semiconductor on a columnar body or by applying a melt, solution, or gel of semiconductor to the columnar body, a coating of semiconductor is formed. Four insulating wires, a stripe band of the connected four insulating wires are wound around the columnar body. Then, one of the insulating wires is removed to form a copper wire in the vacant portion by copper vacuum deposition. Lastly, another insulating wire not adjacent to the copper wire is removed to form an aluminum wire in the vacant portion by aluminum vacuum deposition. By measuring the resistance between the copper and aluminum wires, the intensity of light striking the semiconductor can be determined.

Abstract: A thermoelectric device that can exhibit substantially high specific power density is provided. The device includes core having a p-type element made from carbon nanotube and an n-type element. The device also includes a heat plate in and a cool plate, between which the core can be positioned. The design of the thermoelectric device allows the device to operate at substantially high temperature and to generate substantially high power output, despite being light weight. A method for making the thermoelectric device is also provided.

Abstract: The invention concerns a light detection power system (105). The system can include a solar cell charging circuit (120) having at least one solar cell (116) in which the solar cell charging circuit can provide power to a power source (114), a lighting circuit (122) that receives power from the power source and a controller (118) coupled to the solar cell charging circuit and the lighting circuit. The controller can enable the lighting circuit when a power level that the controller detects from the solar cell charging circuit fails to reach a first predetermined threshold. The solar cell charging circuit can include a switch (130) that is controlled by the controller. The controller can further enable the switch when the power level that the controller detects from the solar cell charging circuit reaches a second predetermined threshold.

Abstract: A method of applying a physical barrier to suppress thermal decomposition near a surface of a thermoelectric material including applying a continuous metal foil to a predetermined portion of the surface of the thermoelectric material, physically binding the continuous metal foil to the surface of the thermoelectric material using a binding member, and heating in a predetermined atmosphere the applied and physically bound continuous metal foil and the thermoelectric material to a sufficient temperature in order to promote bonding between the continuous metal foil and the surface of the thermoelectric material. The continuous metal foil forms a physical barrier to enclose a predetermined portion of the surface. Thermal decomposition is suppressed at the surface of the thermoelectric material enclosed by the physical barrier when the thermoelectric element is in operation.

Abstract: A solar collector which is illuminated by the sun through a glass panel wherein the glass panel is constructed of glass without low-e coatings with a first surface coating of a magnetron sputtered vapor deposition coating consisting primarily of titanium dioxide. The titanium dioxide achieves a hydrophilic photocatalytic surface to produce a solar collector which is self-cleaning for increased solar energy transmittance with less cleaning cost.

Abstract: A photovoltaic cell has two electrodes and a hole injection layer. A liquid crystal material and a plurality of particles can be disposed between the electrodes.

Abstract: An integrated package structure having a solar cell and a thermoelectric element includes a substrate, a first solar cell and a thermoelectric element. The substrate has a first surface. The first solar cell has a second surface, a first electrode disposed on the second surface and a second electrode disposed on the second surface. The second surface faces the first surface. The thermoelectric element has a third electrode and a fourth electrode. The thermoelectric element is disposed between the first surface and the second surface. The first electrode and the second electrode are electrically connected to the third electrode and the fourth electrode respectively. A method of fabricating the integrated package structure having the solar cell and the thermoelectric element is also provided.

Abstract: A solar electrolysis power source includes a solar panel, an electrolysis unit, a hermetically sealed compressor, a hydrogen tank, and a fuel cell. By utilizing the electrolysis of water powered by solar energy, the solar electrolysis power source enables a safe, environmentally benign, and cost-effective method of power generation. Furthermore, by combining the production, the compression, the storage of hydrogen, as well as the delivery of the hydrogen to the fuel cell in one hermetically sealed unit currently existing problems with the production, storage delivery, and refueling of hydrogen can be eliminated. The solar electrolysis power source uses hydrogen gas that is hermetically sealed from production to use.

Abstract: A thermoelectric power generating device is assembled from multiple thermoelectric elements disposed in a chip structure, the chip structure forming a power generating core. Multiple cores are stacked within a thermal container such that thermal energy provided at a first end of the thermal container is delivered in a serial manner to the stacked cores. The thermal container includes heat absorbers, heat reflectors and heat transmission barriers so that minimal thermal energy is lost through the walls of the container and maximum thermal energy flows from the heat source through and past the cores to an ambient temperature end of the container so as to create a controlled temperature differential from the hot end to the cooler end of the container as well as across each core stacked therein. The temperature differential across each core results in the generation of electrical energy, such electrical energy being collected by standard power utilization techniques.

Abstract: Thermochemical processing systems for the production of electricity and chemicals using energy from an orbiting space solar power satellite (100). Methods of producing electricity and chemicals using the powerbeam (120). Systems and applications include the orbiting satellite, which intercepts solar energy (110) and directs a powerbeam to a lunar or planetary surface or a receiving system in space; rectennas (220) for the production of electricity; and concentrators (300), receivers (310) and thermochemical process systems for the production of fuels and other chemicals. Efforts are made to optimize the operation of the system through the utilization of solar energy, when available, plus the powerbeam from the satellite.

Abstract: A covering material for solar thermal power generation system, characterized in that it is made of a film which has a tensile yield strength of at least 10 N/mm2 according to JIS K7127, a solar radiation transmittance of at least 85% according to JIS R3106, and a retention of at least 80% against the initial value of the tensile breakage strength after 5000 hours of the sunshine carbon arc lamp weather test according to JIS B7753.

Abstract: A vehicular battery charging is accomplished by a solar battery charging system including a solar panel which can be attached to any edge of a windshield by way of being incorporated into the glass of the windshield or by being adhesively attached thereto. this system prevents the battery from being drained of its power when sitting in any location for a prolonged period of time.

Abstract: A generator of electric energy based on a thermoelectric effect includes a layer of thermoelectric material set between two pipes that guide two flows of fluid at temperatures different from one another. Each of the pipes has its wall in heat-conduction contact with respective side of the layer of thermoelectric material. Each pipe has a cavity of passage for the respective flow of fluid occupied by a porous material or divided by diaphragms into a plurality of sub-channels so as to obtain a large heat-exchange surface between each flow of fluid and the wall of the respective pipe and between said wall and the respective side of the layer of thermoelectric material.

Abstract: Apparatus is provided for supporting a solar energy collection device (601, 602). The apparatus is substantially wedge-shaped with a base (102) for contacting a roof surface (203) and an inclined front face (103) for supporting the device (601). The apparatus is configured such that the total weight is adjustable so as to apply an appropriate loading on the roof. In a first embodiment ballast is supplied to a ballast cavity (105). In an alternative embodiment, wedge-shaped members (903) may be selectively removed from an assembly so as to provide a desired weight distribution.

Abstract: An apparatus is described that converts electromagnetic radiation into electric current, of the type comprising a plurality of junctions between a first element (11; 111) of material with conduction through carriers of positive charge and a second element (12; 112) of a material with conduction through carriers of negative charge, said plurality of junctions defining a plurality of couples (10; 111, 112) comprising a hot junction (19) and a cold junction (18), said plurality of couples (10; 110) receiving a thermal flow (FT) generated by a radiation (R) incident in the direction of a region (172) including the hot junction (19), said apparatus (20; 30; 70; 170; 190) including a device (25; 75; 175) to guide said radiation (R) towards said plurality of couples (10; 111, 112).

Abstract: Representative configurations for improved thermoelectric power generation systems to improve and increase thermal efficiency are disclosed.

Abstract: A solar panel incorporating a selectively actuable energy availability indicator arrangement. The arrangement includes a visual indicator, such as an LED, and a selectively actuable button. Actuation of the button completes a circuit to read the level of energy available. A resistor in series with the LED as it is connected to the terminals of the solar panel limits the current flow through the LED. A blocking diode connected in series with a charging battery prevents the LED from reading the charge of the battery.

Abstract: A nanocomposite having enhanced energy conversion between thermal, electron, phonons, and photons energy states. The composition comprises a synergistic blend of nanoscale powders wherein the powders have nanoscale layered surface modifiers and a conductive medium. The powders and conductive medium are optionally altered through non-thermal modifiers and made into energy conversion devices.

Abstract: A structurally integrated solar collector. Roof and wall covering components are integrated with solar collectors to permit solar energy to be converted to heat, electricity and hot water for use within a building. A roof truss is described that additionally captures sunlight for illuminating a building. The roof and wall components are adaptable to heating and cooling seasons so as to minimize the loss of air-conditioned air in the summer time and to maximize solar heating during cold months. Solar energy captured by a structurally integrated solar collector can be directly converted to electricity through use of photovoltaic materials or by harnessing airflow through structurally integrated solar collector to obtain electricity through mechanical conversion.

Abstract: A solar energy collector system for reducing heating, air conditioning and power consumption of a building structure. The solar energy collector system includes a housing structure, a collector plate, an insulating sheet positioned between the collector plate and a floor of the housing structure, a thermopile unit within the housing structure, and a fluid positioned below the collector plate. The fluid adjacent the collector plate is heated thereby rising to an upper portion of the housing structure and thermally conducting the thermopile unit for generating electricity. The cooled fluid then passes downwardly below the insulating sheet to a lower portion of the housing structure. A heat exchanger is utilized upon the opposite side of the thermopile unit for transferring the heat to a desired location within or outside of the building structure.

Abstract: A solar diffusion loss compensator and collimator that reduces loss due to reflection of non-perpendicular energy rays that are usually reflected and lost externally by providing a means to capture reflected energy from adjacent surfaces and redirecting such energy toward the focal plane comprising a transparent, multi-tiered, hexagonal structure having a series of internal recesses that selectively reflect (total internal reflection [T.I.R]) the light waves passing therethrough thereby focusing and concentrating said light for the storage and usage thereof. A reflector assembly surrounds the solar collector assembly to redirect light towards the vertical planes of the solar collector. The present invention improves flux densities in radiant energy applications by gathering diffused light and redirecting the rays so they may be compressed into dense parallel rays and directionally focused to suit a particular applications.

Abstract: A method of measuring the photoelectric conversion characteristics of a solar cell element is provided which comprises the steps of placing and fixing a solar cell element on a stage with a light-receiving surface of the solar cell element being an upper surface, irradiating a photoelectric conversion layer of the solar cell element with a light from the upper surface side, and bringing probes provided on a side opposite to the light-receiving surface side into contact with a first electrode portion and a protruding electrode portion of a second electrode, respectively. An apparatus for measuring the photoelectric conversion characteristics of a solar cell element is also provided.

Abstract: A condensation panel to be used for harvesting water from atmospheric moisture during those times of the diurnal cycle when relative humidity is at or near 100% utilizes very localized cooling to optimize condensation on a surface whose materials promote the condensation and collection of the water. The panel is passive in the sense that it can be deployed and left in an unmaintained condition for considerable periods of time. At least one time each day, almost certainly in the morning, water harvested by the process of assisted condensation can be collected for use.

Abstract: A combined thermocouple and thermopile capable of producing multiple EMF signals. The combined thermocouple and thermopile construction is particularly adapted for use as an electric generator capable of producing multiple EMF signals and able to respond faster to changes to the presence or absence of a pilot or gas burner flame. The conductors of the thermopile are comprised of dissimilar metals joined at each end to form hot and cold thermocouple junctions. The thermopile may provide multiple EMF signals when a third wire lead is affixed to a cold junction between either end of the array. The array of thermocouples is formed in a circle and enclosed in a metal sleeve or jacket.

Abstract: Solar lamp for outdoor use, in particular a garden lamp, road or street lamp or such, consisting of one or more solar module, and a housing with a storage means for electric energy (battery), which is electrically connected to the solar module, and one or more luminous body, whereby between the battery and the luminous body a circuit is provided, which reacts to signals from a light sensor attached to the solar lamp, and which enables or disables the electrical connection between the battery and the luminous body depending on the degree of brightness/darkness, whereby the housing is provided with two or more walls of different orientation which do not converge parallel to each other, and whereby one or more solar modules are arranged on each wall, or that the walls are formed by solar modules.

Abstract: A solar energy converter includes: a light-concentrating instrument; an electron emitter in an insulated vacuum vessel, emitting electrons in a vacuum as a temperature rises by sunlight; an electron accelerator within the light-concentrating instrument; a cathode on a surface of the electron emitter opposite to a surface which is irradiated by sunlight, and electrically connected with the electron emitter; an electric field supplier having a positive terminal and a negative terminal; and an electron collector in the vacuum vessel, collecting the emitted electrons flying from the electron emitter toward the electron accelerator; wherein the electron accelerator is connected with the positive terminal and the cathode is connected with the negative terminal to generate an electric field, and the electron collector is used as a negative generator electrode and the cathode is used as a positive generator electrode in which the collected electrons migrate to the electron emitter to generate electricity.

Abstract: A solar collection system and method having means for receiving solar radiation through a main refractive interface and means for internally reflecting at least once, at least a portion of the received solar radiation. The refractive medium may be liquid, gel or solid. The device may be integrated with a photovoltaic device, photohydrolytic device, a heat engine, a light pipe or a photothermal receptor.

Abstract: There is provided a composite thermal system. The composite thermal system includes a thermoelectric system and a photovoltaic system. The photovoltaic system converts light energy into electrical energy. The thermoelectric system converts electrical energy into thermal energy. The photovoltaic system is integral with and electrically connected to the thermoelectric system for providing electrical energy to the thermoelectric system.

Abstract: The solar energy converter comprises an electron emitter and an electron collector. They are provided separate from each other in a vacuum vessel. Solar energy in a wide range of sunlight spectrum can be efficiently converted into electric energy by moving electrons from the electron emitter to the electron collector.

Abstract: A high-efficiency thermoelectric unicouple is used for power generation. The unicouple is formed with a plurality of legs, each leg formed of a plurality of segments. The legs are formed in a way that equalized certain aspects of the different segments. Different materials are also described.

Abstract: The electron tunneling device includes first and second non-insulating layers spaced apart such that a given voltage can be provided therebetween. The device also includes an arrangement disposed between the non-insulating layers and configured to serve as a transport of electrons between the non-insulating layers. This arrangement includes a first layer of an amorphous material such that using only the first layer of amorphous material in the arrangement would result in a given value of a parameter in the transport of electrons, with respect to the given voltage. The arrangement further includes a second layer of material, which is configured to cooperate with the first layer of amorphous material such that the transport of electrons includes, at least in part, transport by tunneling, and such that the parameter, with respect to the given voltage, is increased above the given value of the parameter.

Abstract: The present invention incorporates the generation of electricity with the vaporization of a cryogen such that all of the available heat is beneficially used. The heat is either converted to electricity thermoelectrically or the heat is absorbed by the cryogen to vaporize the cryogen into cryogenic vapor and to increase the internal energy of the energetic cryogenic vapor, which is capable of performing work.

Abstract: A photon power cell has at least one photo-electric cell (10), one or more layers of filter glass (15) and a radioactive-energised fluorescent material (20) which produces photons that are converted into electrical energy by the photo-electric cell (10). The photo-electric cell (10) may be a standard solar cell silicon wafer (14) with coatings (12) of phosphorus applied to the surface of the wafer (10). The layer of filter glass (15) contains lead, gold and/or graphite to protect the PN junction of the solar cell (10) from unwanted radioactive particles from the radioactive-energised fluorescent material (20), while being transparent to photons within a required frequency spectrum to produce a photo-electric effect. A plurality of solar cells (10) may be arranged in a stack interposed between layers or coatings of the radioactive-energised fluorescent material (20) to provide power cells which can power electric devices such as from mobile telephones to electric vehicles for several years.

Abstract: A thermophotovoltaic power generating apparatus has a combustor for burning a fuel upon supply of the fuel and air, an emitter heated by passage therein of combustion gas produced in the combustor, and a photoelectric conversion element that converts light radiated from the emitter into electric power, the combustor being provided between the emitter and the conversion element. Preferably, the emitter is disposed above the combustor, and the photoelectric conversion element is disposed below the combustor. With this structure, combustion gas does not reside in the combustion chamber, but is discharged via the emitter disposed above the combustor. Combustion becomes stable, and the emitter is efficiently heated, so that energy radiated from the emitter surface increases.

Abstract: A fuel cell system is disclosed. The fuel cell system comprises a thermophotovoltaic insulation disposed around at least a portion of a fuel cell. Methods for operating the fuel cell system are also disclosed.

Abstract: The supply of power from a battery to a load is controlled by the charging current output status of a solar cell, such that when the solar cell receives light, the load is cut off; and once the solar cell no longer receives light, the battery is charged to a preset saturation level and the solar cell no longer supplies charging current to the battery, or the charging current falls short of a predetermined level, the battery will revert to an output mode with suspension of the charging function.

Abstract: The present invention is a self-contained, solar powered heating and cooling system for a building. The collector has an insulated heating chamber, and a light transmissive cover and a thermostatically controlled vent. The chamber contains absorptive columns standing on the floor. An internal liquid conduit exposes the liquid to the heat within the chamber. The collector is connected to a remote thermal reservoir such that a liquid circuit and a separate gas circuit both circulate heated fluid to the reservoir. Heat can be stored in any of a liquid reservoir, thermal mass reservoir and gas reservoir. Wind powered generators and photovoltaic cells provide power for the system or other applications. The thermal reservoir has heat exchangers which deliver stored heat to the building or operate a heat operated refrigeration machine (e.g., a liquid absorption chiller). Additional self sustaining power sources may optionally be incorporated into the present invention.

Abstract: A light element with a translucent surface includes an energy converter, wherein the translucent surface is so formed as to direct only that portion of the radiation onto the energy converter that impinges on the translucent surface. The energy converter may be a solar cell, a fluid line or a light guide. The light element is particularly suited for illuminating interior spaces with diffuse light.

Abstract: A solar/thermal radiation cell device comprising at least two parallel metal or semiconductor plates of equal or unequal dimensions separated by an air or an insulated gap and based on an insulator slab for producing electricity from solar energy. Multiple cells are arranged in a stack and connected in series and/or parallel to cascade the electrical energy obtained.

Abstract: A solar powered electricity generating system comprised of a concentrator assembly that concentrates solar flux into a thermal storage unit. The thermal storage unit converts solar energy into heat energy which is then provided to three cascaded converter stages which, in the preferred embodiment, are comprised of a thermionic electric converter (TEC), an alkaline metal thermal to electric converter (AMTEC) and a thermoelectric generator stage comprised of a plurality of thermal photovoltaic cells. A phase change material is positioned within the thermal receiver such that the solar flux converts the material from a solid phase into a liquid phase such that the thermal storage unit can continue to generate heat energy when the sun is no longer providing thermal flux to the receiver as a result of the heat energy produced as the phase change material changes back from a liquid phase to a solid phase.

Abstract: A solar collector system for converting solar radiation to thermal energy and electricity has an upper cover with a material that is transparent to solar radiation. A solar energy absorbing structure is disposed under the upper cover and has a heat conducting material such as metal. In addition, a first heat transfer system is disposed in contact with the solar energy absorbing structure and has a material that transfers heat from the solar energy absorbing structure to a first substance flowing within the first heat transfer system. The solar collector system also has electric cells that absorb solar radiation and convert it into electricity. The cells are configured and disposed on at least a portion of the upper cover.

Abstract: A sub-roofing element for a flat, plate-shaped structural element, in particular for a solar energy collection module that can be fastened to joist elements that can be laid on a pitched roof in the ridge-eaves direction, whereby the sub-roofing element is made of watertight material and has at least one water channel.

Abstract: This invention is a thermoelectric-photovoltaic device for converting electrical energy from both thermal radiation and sunlight. Thermoelectric energy is produced from thermoelectric cells when a temperature difference is present between two different semiconductor materials. Photovoltaic energy is produced from photovoltaic cells when two different semiconductor materials are exposed to sunlight. To achieve increased electrical energy production, one of the semiconductor materials is placed in a cell having a reduced pressure atmosphere to increase the radiative energy thermal exchange with the black sky at night.

Abstract: A thermoelectric battery is disclosed which uses pipes connected in series made from two different metallic materials. The pipes are connected in an alternating manner and exposed to sunlight to increase the temperature therein. Other parts of the pipes are connected to a cooler temperature such as water or the ground to produce a temperature differential suitable to produce a voltage potential. The thermoelectric battery is also used to supply power to a swinging pendulum in which two different ionic chemicals are mixed at a selected time to generate electrical power. The thermoelectric battery, connected through a pacemaker circuit, produces a magnetic field at predetermined periods equal to a multiple of the period of oscillation of the pendulum, the field acting to give the pendulum a push in order to keep the pendulum from stopping.

Abstract: The object of the present invention is, in a solar battery where at least an electrolyte and a porous member of an oxide semiconductor retaining a pigment material are provided between a transparent electrode and a counter electrode, to obtain a high conversion efficiency by improving the contact between the transparent electrode and the porous member of the oxide semiconductor. In order to achieve the above-mentioned object, in the solar battery according to the present invention where at least the electrolyte 6 and the porous member 3 of an oxide semiconductor retaining pigment material are provided between the transparent electrode 1 and the counter electrode 5, a finely-formed film 8 made of the same oxide semiconductor as the porous member 3 is further provided between the transparent electrode 1 and the porous member 3 of the oxide semiconductor.

Abstract: A front-side or back-side illuminated variable current-voltage thermophotovoltaic device comprises a support substrate; isolation layers disposed on the support substrate; a plurality of cells disposed on the isolation layers, each of the cells including a base layer and an emitter layer; an insulating member disposed between each of the cells configured to isolate each cell from adjacent cells; an ohmic contact configured to connect each cell to another cell in series; and a spectral control device disposed on top of the cells and/or on the bottom surface of the support substrate.

Abstract: A method and apparatus for the direct conversion of energy by thermovoltaic energy conversion having first and second tubesheets, at least one photon emitter plate secured to and extending from the first tubesheet, at least one cold plate secured to and extending from the second tubesheet, a plurality of thermovoltaic cells disposed along oppositely disposed exterior surfaces of the cold plate, and means cooperating with the tubesheet for maintaining a vacuum between the photon emitter plate and the cold plate.